Meet "The Brænch"—an organic 3-meter-high steel structure fabricated with advanced 3D printing technology. This class showcases how our cross-disciplinary team used Fusion to unlock novel design workflows and create unique architectural elements that are 3 times cheaper than if they were die cast. We'll demonstrate why architects should consider adding Fusion to their toolbox for generative design, optimization, and FEA simulation to move beyond certain limitations of Rhino/Grasshopper. Through detailed examples, we'll present an integrated workflow improving material efficiency and structural performance in large-scale metal components. The class targets architects first approaching manufacturing, practically demonstrating how to align design with fabrication requirements, opening possibilities for applications such as façade components and structural elements while leveraging additive manufacturing to tackle material transportation, construction cost, and supply chain challenges.

What’s the difference between topology optimization and generative design—and why does it matter when building advanced components? In this hands-on lab, we’ll explore the tools and workflows that helped Elara Aerospace design a launch-ready, record-breaking rocket built to survive the extreme forces of spaceflight. You’ll follow guided exercises in Autodesk Fusion software, learning how to harness both generative design and topology optimization to reduce mass, increase strength, and improve overall performance under tight constraints. We’ll walk through how to define loads, constraints, and materials. We’ll cover how to interpret and compare outcomes. And we’ll explore post-process geometry for manufacturability. You’ll gain practical experience in setting up a generative design study, comparing it with topology optimization, and understanding when and why each approach is appropriate. By the end, you’ll understand the theory—and have built and optimized a component for spaceflight-level performance.

While generative design offers innovative, organic forms, its realization has largely been limited to prototyping via additive manufacturing. Conventional computer numerical control (CNC) Machinist, despite its advancements and suitability for mass production, has primarily focused on geometric parts, alongside making the production more efficient, autonomous, and lights out. This project investigates a paradigm shift by exploring the integration of generative design with modern CNC Machinist techniques. We’ll delve into recent developments in CAM software, using Autodesk Fusion 360 software and modern CNC techniques that enable the fabrication of complex, freeform designs developed through generative algorithms. By examining a successful case study of bicycle components, current limitations, and potential applications across various industries, this presentation aims to highlight the potential of this integrated approach to bring generative design to mass manufacturing, moving beyond prototyping and into real-world applications.

In 2025, technology trends in design, construction, and facilities management are converging around artificial intelligence (AI), Automation, Integration, & Customization, and Sustainable Design—with a focus on enhancing efficiency, safety, and user experience. Key areas include the integration of AI in design, 3D printing and additive manufacturing, drones, robotics, wearable technology, and Sustainable Design initiatives. This session will bring together the leaders in design construction and facility management to discuss the current trends and look to the future of technology in 2026.

In this session, attendees will get a look at how Generative Design in Fusion 360 software can help them improve the way they design and make engineering decisions. We will review the development progress we made throughout the year, and highlight why those features were key to improving how users capitalized on Generative Design. We will also look ahead to how we will be investing in improving our workflows, as well as growing our physics support to expand the types of problems that can easily be solved with Generative Design in Fusion 360. Lastly, we will show a sample of some of the successful customer projects that have been executed throughout the year.

Solar energy is clean and limitless, and the operational costs are close to nothing once you’ve installed a solar panel as no fuel is needed to create a considerable amount of energy. And a single kerosene wick burns an estimated 80 liters of fuel, producing more than 250 kilograms of carbon dioxide per year. To help people living in remote places with limited access to electricity, we made a low-cost solar light bulb as a replacement to a harmful kerosene lamp. We will share the technical workflow while creating the solar lamp inside the Fusion 360 Electronics and Modeling workspace, demonstrating an effective ECAD—MCAD collaboration.

Fusion 360 software is a complete product-design tool that enables users to go from concept to production with integrated CAD, CAM, and CAE technology. We hear that a lot, but in reality, what does it actually mean? Is it the Swiss Army knife of design software? Can it do everything? This class will take attendees through the complete design and manufacturing process, from initial concept scribbles all the way through to generating files for 3D printing and toolpaths for a computer numerical control (CNC) job. We'll kick off with bringing some drawings into the Fusion 360 environment and using them as template. Then we will move on to some basic simulations, carrying out a design change and generating some communication visuals with custom materials. Finally, we'll hit up the Manufacture workspace to generate some toolpaths for CNC machining and potentially fire up a CNC machine (using Fusion Team to share tool libraries).

Spring of 2020 was an interesting and stressful period for many professions. Teaching was no exception. Faculty at Ivy Tech Community College had one week to transition courses from in-person to entirely virtual. The use of Fusion 360 software made this possible. DESN 195 (Manufacturing Principles and Design) is a course that takes students through various aspects of manufacturing. Course objectives include: learning about workplace safety, creating G-code, using metrology tools, discussing lean principles, and developing a facility layout. Students typically take this course during their first year. In this class, we will journey through DESN 195 during Spring 2020. See how Fusion 360 lets people smoothly transition from in-person to virtual, even when creating computer numerical control (CNC) programs. During this class session, we will cover examples of what worked well, what did not, and what people in education and industry can learn from this experience.

Learn how to kickstart your design for additive manufacturing (DfAM) process by using Fusion Lifecycle software for rapid innovation and concurrent design. Conventional design methodologies tend to be linear with siloed functional groups relegated to their respective touchpoints in the design development lifecycle. The complexities and nuances of DfAM require a modern and flexible approach that facilitates additive manufacturing’s unique design space and value proposition. With an emphasis on exploring divergent and creative thinking, we will examine how Fusion Lifecycle can manage innovative design development for DfAM and become the foundation of a digital product thread.

How can you design, prototype, and successfully launch products when your team is remote? Fusion 360 software and EAGLE CAD software have the collaborative tools you need to enable remote teams. Learn to simultaneously build great products using the Team and Collaboration features of Fusion 360 and EAGLE.

Do you want to learn to use 3D CAD software? Do you have a 3D printer and want to start designing your own prints? With many courses tailored at the high end, this lab is for beginners or those who want to try something new. This is an opportunity to learn a new skill so you can make custom designs on 3D printers and other CAM devices. In the lab I will be covering: Basic setup, Part modelling - sketching, features, edges, and patterns. Assemblies - bringing parts in from not only your library but the content centre and standard parts, constraints, degrees of freedom. Progression - Where to go next and what are the options. Where to go for help and support. This is a lab where I wanted to show the perspective of a self-taught student using Inventor and the challenges I went through and how I went from starting out to mastering the skills needed to make the projects I made for my GCSE 3D Design Course.

Do you find that you have too many templates to manage? Are you struggling with keeping drawings and models up to your latest company standards? If you answered yes to any of these questions, then this class is for you. Inventor iLogic and the API are powerful tools that can be utilized in creating your Inventor templates, along with managing your Inventor files by keeping them up to the latest company standards. In this class, we’ll create one template for multiple drawing sheet sizes and a part template, driven by iLogic rules. We’ll design and create external iLogic rules to check model standards, switch drawing styles, sheet sizes, dimension schemes, and a few other useful tools. This class will demonstrate how the power of iLogic can help you minimize the number of templates you need to create and maintain, along with forcing the user to input standard company iProperties. These iLogic programs will make model and drawing setup a breeze.

This session will explore a practical, classroom-tested workflow for integrating advanced electronics and mechanical design using Autodesk Fusion software. Using a mechatronics case study—a Raspberry Pi Pico-controlled NERF turret—you'll learn to streamline multidisciplinary design, enhance collaboration, and prevent integration challenges. See how Fusion can simplify electronics PCB and mechanical design integration, optimize prototyping, and support real-world educational outcomes. Gain practical methods for improving your electronics-mechanical workflow efficiency.

In this cross-industry collaboration between Northumbrian Water Group (NWG) and the Autodesk Technology Centre in Birmingham, England, we're solving the challenges NWG has maintaining water infrastructure. By employing advanced manufacturing techniques—such as laser scanning, reverse engineering, and hybrid manufacturing—NWG can work with its supply chain to repair broken parts and extend the operating lives of the assets they maintain. NWG is responsible for many assets that were manufactured decades ago, and the original design data is no longer available, causing excessively long lead times for replacement parts. As a result, the downtime for key national infrastructure water systems is prolonged and costly. We will show how this important collaboration between the water and manufacturing industries will reduce the downtime and extend product life, improving NWG's resilience, and ultimately saving money for customers.

Explore best practices for industrialized construction to ensure fast, efficient, and sustainable workflows. Learn how Beca from Australia and Windover Construction from the United States used building information modeling (BIM) to improve off-site workflows and facilities operations. Case studies will cover academic and affordable housing projects, including the digitalization of asset management at the University of Melbourne and Windover's 153,000-square-foot, modular, mixed-use community in Massachusetts. You'll also explore the application of additive manufacturing in fabricating historic preservation facades at the Autodesk Technology Center in Boston. Gain insights into the convergence of manufacturing and architecture, engineering, and construction workflows, leading to reduced waste and improved quality. Discover how combining off-site construction and digital twins is paving the way toward a zero-waste future. Explore how design for manufacturing and assembly (DfMA) workflows can empower prefab design, manufacturing, and installation, maximizing sustainability, schedule, and cost benefits across your portfolio.

Automation and robotics have helped manufacturing, retail, and agriculture industries increase productivity by 1,500% since 1945 (McKinsey 2017). In contrast, however, construction productivity has remained relatively stagnant during the same time period. For the robotics industry, construction presents potential use cases and unique applications that can utilize a variety of evolving technologies, from drones, ground robotics, teleoperation, machine vision, additive manufacturing, and assistive robotics. Automation has been implemented in other industries to solve challenges associated with labor productivity, material waste, quality control, and so on—but why not construction? This panel will bring together representatives from the architecture, engineering, and construction industry with technology and thought leaders from the robotics community to develop a collective understanding of the problems and opportunities, and discuss how to take the next steps.

Don't get left behind. This class will peek into future technologies that will change the way you work. Join us as we share innovative new HP and NVIDIA products and technologies that span Virtual Reality (VR), 3D Printing, and 3D Scanning. In addition to our view of tomorrow, we will help you enhance Autodesk workflows today with new graphics technologies and Workstation-class hardware, and Tips & Tricks for performance optimization. You will leave this class inspired by our vision of the future, and armed with the knowledge and tools you need to work more productively today.

The demand for medical devices is rapidly growing with a forecast of global annual sales to reach nearly US$800 billion by 2030. But a one-size-fits-all approach in surgery often results in major complications such as infection, delayed or incomplete healing, and revision surgeries that contribute to diminishing clinical outcomes. A new approach with design thinking is now necessary to help solve these challenges. Researchers at University of Birmingham, Autodesk, Manufacturing Technology Centre (UK), and the University Hospitals Birmingham NHS Trust have developed a novel design framework to create personalized knee implants from a CT scan using generative design for treating arthritis. This class will showcase how generative design can be implemented in an all-encompassing digital workflow to explore customized devices and make a positive impact to improve patient outcomes. The team will also discuss the fabrication of functional prototypes using cutting-edge manufacturing, post-processing, and validation techniques.

Fusion connects product development from ideation through shop floor fulfillment integrating a broad array of both design & manufacturing solutions. Fusion connects shared data across your processes and tools to help designers, machinists & business leaders make better decisions and improve profitability and sustainability. Meet the partners that help make that happen from hot startups to established industry leaders. Autodesk's ever-evolving partner ecosystem delivers modern solutions, allowing Fusion customers to leverage the latest advancements in sustainable design, toolpath automation, data management, and automated manufacturing. Join this session to hear from some of our key partners and explore how together we are accelerating innovation in manufacturing.

Using examples from recent student work at San Jose State University, this session will present a case study on how the introduction of CAD earlier in design workflow benefitted students with little or no design abilities. It will explore how students were able to ramp up quickly and remove the barriers to entry for learning the industrial design process. Incorporating Fusion 360 in the industrial design curriculum at San Jose State University was pivotal in expanding product development workflows in other emerging technologies that improved students' industrial design development success. Emerging technologies such as artificial intelligence (AI), augmented reality (AR), and 3D printing make it possible to maintain continuity in design development and evaluation conversations, while also reducing environmental impact through more sustainable, iterative practice